bose-einstein

The mean photon energy is about 2.7kT, which scales in direct proportion the interest bits of the Maxwell-Boltzmann and Bose-Einstein distributions (see [0] and [1]).

He also got the Nobel prize in the 90s for making a Bose-Einstein condensate iirc.

Next in the series we will see an article on Bose-Einstein condensation and the wacky world of atomic optics.

I'm using a great tool called M-loop to drive the optimization, which was originally developed for creating Bose-Einstein condensates.

I understand that we can slow and stop light by passing it into a Bose-Einstein condensate.

But with this device, you could store the data in a Bose-Einstein condensate, ship it to the destination, then read the data back out.

Let's not forget that not everything can become a Bose-Einstein condensate.

My favorite episode is probably the one with the Bose-Einstein condensate.

If I recall correctly, rubidium was also used in the first Bose-Einstein condensate experiments.

Bose-Einstein condensates (2001 prize) were figured out in 1995.

A similar response could be given to something like the Bose-Einstein condensate, and I personally find it very very interesting as well as important.

First, photons in thermal equilibrium obey Bose-Einstein statistics because they are indistinguishable bosons, and anything that could mark them would change the statistics to that of distinguishable particles.

Apologies for going meta, but - Only on Hacker News will you see a "simpler" explanation involve the mention of Bose-Einstein condensate.

This reminds me of something that I think I first read about in Michio Kaku's book Physics of the Impossible where a Bose-Einstein condensate was used as a medium for "teleportation".